WINNIX EXV9210 User Guide

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Contents

1. OVERVIEW ................................................................................................................... 2

2. PRODUCT PARAMETER ............................................................................................... 3

3. PRODUCT STRUCTURE AND SPARES ......................................................................... 3

4. JUDGEMENT OF MAINBOARD SIGNAL AND CONNECTION ........................................ 4

4.1. CONVERTER BOARD C1 ........................................................................................................ 4

4.2. CONVERTER BOARD C2 ........................................................................................................ 5

4.3. CONVERTER BOARD C3 ........................................................................................................ 7

4.4. CONVERTER BOARD C4 ........................................................................................................ 8

4.5. CONVERTER BOARD C5 AND C6 ............................................................................................ 9

4.6. CONVERTER BOARD C7 AND C8 .......................................................................................... 10

4.7. CONVERTER BOARD CD/S1 (FOR SAMSUNG USIT 96PIN SINGLE LCD MODULE CABLE

SEQUENCE) .................................................................................................................................. 13

4.8. CONVERTER BOARD S3 (FOR SAMSUNG USIT 96PIN DUAL LCD MODULE CABLE SEQUENCE).... 14

4.9. CONVERTER BOARD V1 (FOR 4K-VBYONE CABLE SEQUENCE) ............................................. 15

5. USER GUIDE.................................................................................................................16

5.1. MAIN INTERFACE DESCRIPTION .............................................................................................. 16

5.2. CONNECTION INSTRUCTION ................................................................................................... 16

5.3. TESTING AND OPERATION...................................................................................................... 17

5.3.1. Enter and exit the menu interface .............................................................................. 17

5.3.2. Number of signal lanes ............................................................................................... 18

5.3.3. Color Mode ................................................................................................................. 18

5.3.4. Color bits .................................................................................................................... 18

5.3.5. Screen Division ............................................................................................................ 19

5.3.6. Display Mode .............................................................................................................. 19

5.3.7. Image Adjustment ...................................................................................................... 20

6. PRECIOUS POINTS ......................................................................................................20

7. APPENDIX ONE ...........................................................................................................22

8. APPENDIX TWO ..........................................................................................................22

9. APPENDIX THREE .......................................................................................................23

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EXV9210

1. Overview

For various flat panel display technologies, TFT-LCD (Thin Film Transistor-Liquid Crystal
Display) technology dominates the flat panel display market due to its low operating voltage,
low power consumption, long life, no radiation and low cost characteristics. The driving system
of the TFT-LCD panel consists of a gate driver GD (Gate Driver), a source driver SD (Source
Driver) and a timing controller T-CON (Timing Controller). The T-CON converts the sync control
signal and data signal received from the signal source to specific input signals required by the
GD and SD respectively, and sends the data signal to each SD through the interface protocol. As
the mainstream display technology, TFT-LCD is developing towards a large screen, high
resolution and high color depth, resulting in a dramatic increase in the amount of transmission
data . The performance of the interface protocol is directly related to quality of the display.
Therefore, for various TFT-LCD display technologies, the interface protocol is the key point to
determine whether the data signal between T-CON and SD can be transmitted correctly.

In response to market demand, the interface protocol has developed for three
generations. The first generation uses TTL or CMOS levels to transfer data in parallel. The
second-generation interface protocol adopts a multi-drop bus structure of low-swing
differential signaling and serial transmission. The third-generation interface protocol uses a
point-to-point architecture, the P2P architecture, where the T-CON and each SD are
transmitted by separate differential data pairs. In addition to retaining the advantages of the
second-generation interface protocol, the point-to-point structure greatly reduces the number
of transmission lines, and the signal line impedance is not affected by SD loading. These
advantages ensure data transmission stable and reliable based on the point-to-point interface
protocol, and they support large-size, high-speed, high-resolution, and high-color depth TFT­LCD.

EXV9210 is a P2P signal converter, which can convert P2P signal to HDMI signal, or directly
display the signal image. At present, there are many types of P2P signals on the market
including CSPI, CEDS, iSP, EPI, etc. EXV9210 can directly convert these P2P signals into image
signals for display on a 5-inch screen, or convert these signals into HDMI signals on external
display. EXV9210 makes production testing and after-sales maintenance easy and fast.

EXV9210 support stand-alone debugging function. If you use this function, you should first

exit PC debugging function and then press “RESET” button in tester device. After that,you can

use tester device buttons to debug functions you need. While you use PC debugging function,
all tester device buttons will be invalid.EXV9210 support English version menu.

Note: EXV9210 can communication with PC by USB or RS232 interface to fulfill FCT function

（

More details , you can review EXV9210 user guide）.

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EXV9210

2. Product Parameter

Item

Parameter

Products Name

P2P signal Converter device

Model

EXV9210

Input Power

5V/5A

LCD size

5 inches

Input Signal type

USIT----of Samsung

CSPI----of CSOT

CEDS----of BOE

ISP----of AUO

EPI----of LG

V-by-One

Output signal type

HDMI/1080P

Product size

170*120*33mm

Warranty

1 year

3. product structure and spares

Heat Dissipation Hole
5 inches LCD module

Fan

Reset

Power Input

Reserve

Link port

Touch button

USB2

USB1

HDMI output

Signal Input

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EXV9210

Figure 3-1 EXV9210 Structure

Figure 3-2 EXV9210 Standard Product and spares List

4. Judgement of mainboard signal and Connection

4.1. Converter board C1

The P2P signal is generally 12 pairs of differential signal cables, and a few special
motherboards contain 8 pairs or 6 pairs of differential signal cables, they are including 60 Pin
single LCD module cables and 60Pin dual LCD module cables. For the 60Pin single LCD module
cable sequence, there are 12 pairs of differential signal cables, each pair of differential signal
cables is separated by a ground line, as shown in Figure 4-1-1, P13-P47 are differential signal
cables, and differential cables It is separated by ground wire, and the wire sequence is tested by
converter board C1, as shown in Figure 4-1-2 .

Host*1

5V*5A power*1

FFC Flat cable*6

Converter Board*8

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EXV9210

Figure 4-1-1 60Pin Single LCD module cable P2P sequence

Figure 4-1-2 Converter board C1 Connection

4.2. Converter Board C2

The P2P signal of the 60Pin dual LCD module cable is more complicated. During the test, the

pin position of the differential cable must be in one-to-one correspondence with the converter
board, and cannot connect incorrectly. As shown in Figure 4-2-1, for 60Pin dua LCD module
cable P2P signal, each LCD module cable contains 6 pairs of differential signal cables, and each
pair of differential signal cable is separated by a ground wire. Among them, the left LCD module
cable P13-P29, the right LCD module cable P32-P48 is the position of the differential signal line,
the line sequence is connected to the C2 converter board, as shown in Figure 4-2-2.

Figure 4-2-1 60Pin Dual LCD module cable P2P sequence

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EXV9210

Figure 4-2-2 Converter Board C2 Connection

There is a P2P motherboard with the same cable sequence as converter board C2, but the
two 60Pin sockets are placed in opposite directions, and the cable sequence is as shown in
Figure 4-2-3, the left LCD module cable P32-P48, the right LCD module cable P13-P29 are the
positions of the differential signal lines. When testing the mainboard of this cable sequence,
you need only cross the LCD module cable and insert them into converter board C2, as shown
in Figure 4-2-4

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EXV9210

Figure 4-2-3 60Pin Dual LCD module cable P2P sequence

-

Figure 4-2-4 Converter Board C2 Connection

4.3. Converter Board C3

In addition to the 12 pairs of differential signals, there are also 8 pairs or 6 pairs of 60
Pin dual LCD module cable P2P signals, and the left and right sockets respectively contain 4
pairs or 3 pairs of differential signal lines. As shown in Figure 4-3-1, the left screen line P19­P29 of the 8 pairs of differential signal lines and the right LCD module cable P32-42 are the
positions of the differential signal cable and each pair of differential signal cables is separated
by a ground wire. The cable sequence of the 6 pairs of differential signal lines, the left screen
line P19-P26, the right screen line P35-42 is the position of the differential signal line, which is
the same as the 8 pairs of differential signal lines, except that there is one pair of differential
signal lines on the left and right sides, and the positions are the same. are the same, as shown
in Figure 4-3-2. These two line sequences can be tested with the same converterboard C3, as
shown in Figure 4-3-3.

Figure 4-3-1 60Pin Dual LCD module cable P2P sequence

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EXV9210

Figure 4-3-2 60Pin Dual LCD module cable P2P sequence

Figure 4-3-3 Converter board C3 Connection

4.4. Converter Board C4

Among these 60Pin dual LCD module cable P2P signals, there is a cable sequence that is
very similar to the cable sequence corresponding to Converter board C2, so you must pay
attention and distinguish one from another when testing. As shown in Figure 4-4-1, the P2P
signal cable sequence of 60Pindual LCD module cables, the left LCD module cable P14-P30, and
the right LCD module cable P31-P47 are the positions of the differential signal cables.
Compared with the corresponding line sequence of the converter board C2, only One foot was
staggered. When testing the P2P signal of this cable sequence, it is necessary to connect the
converter board C4 for testing, as shown in Figure 4-4-2. Since the cable sequences of the two
converter boards are very similar, during the test, we must pay attention to distinguish it from
the C2 converterboard.

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EXV9210

Figure 4-4-1 60Pin Dual LCD module cable P2P sequence

Figure 4-4-2 converter board C4 Connection

4.5. Converter Board C5 and C6

There is also a line sequence for the P2P signal of 60Pin dual LCD module cable, which
includes 12 pairs of differential cable either, but the differential signal cables are not directly
separated by ground lines, as shown in Figure 4-5-1, the left LCD module cable P48-P59, The
right LCD module cable P2-P13 is the position of the differential signal cable. Judging from the
position of the differential signal cable, this cable sequence corresponds to following two

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EXV9210

converter boards: C5 and C6. Among them, C5 corresponds to the iSP signal, and C6
corresponds to the CSPI signal. You need choose suitable boards according to the schematic
diagram when testing. As shown in Figure 4-5-2, it is the wiring diagram of the iSP signal main
board. The iSP signal is connected to the C5 converterboard.

Figure 4-5-1 60Pin Dual LCD module cable P2P sequence

Figure 4-5-2 Converter Board C5 Connection

4.6. Converter board C7 and C8

P2P signal 68Pin single LCDmodule cable sequence include Hisense 68P and Skyworth 68P
two cable sequences, corresponding to C7 and C8 two converter boards respectively. The

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EXV9210

position and number of differential signal cables of these two cable sequences are all 12 pairs
of differential signal cables, each pair of differential signal cable are separated by ground wire.
Converter board can be determined by the schematic diagram, P2P motherboard statistics or
consulting engineers. Hisense 68Pin shown in Figure 4-6-1, P9-P43 are all differential signal
cables, which are separated by ground wire. This cable sequence can be tested by C7 converter
board shown in Figure 4-6-2. Skyworth 68Pin shown in Figure 4-6-3, P9-P43 are differential
signal cables, the differential cable are separated by ground wire, the cable sequence can be
tested with converter board C8 shown in Figure 4-6-4.

Figure 4-6-1 Hisense 68Pin

Figure 4-6-2 Hisense 68Pin C7 connection

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EXV9210

Figure 4-6-3 Skyworth 68Pin

Figure 4-6-4 Skyworth 68Pin C8 connection

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EXV9210

4.7. Converter board CD/S1 (for Samsung USIT 96Pin single LCD module

cable sequence)

The Samsung USIT signal in P2P signal can be divided into 96Pin single LCD module cable
sequence and 96Pin dual LCD module cable sequence. the USIT single LCD module cable
sequence contains 12 pairs of differential signal cable. Each pair of differential signal cables are
separated by ground wire as shown in Figure 4-7-1, P44-P78 are differential signal cables,
differential cables are separated by ground wire, this cable sequence is tested by converter
board CD/S1, as shown in Figure 4-7-2

Figure 4-7-1 single cable USIT

Figure 4-7-2 single cable USIT S1 connection

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EXV9210

4.8. Converter board S3 (for Samsung USIT 96Pin dual LCD module cable

sequence)

USIT 96Pin dual LCD module cable sequence usually include 12 pairs or 16 pairs of
differential signal cables, each pair of differential signal cables are separated by four pins and
two ground wires. As shown in Figure 4-8-1, the cable sequence contains 12 pairs of differential
signal cables, the left LCD module cable P47-P78 and the right LCD module cable P26-P57 are
all differential signal cable position, each pair of differential signal cable are separated by four
pins and two ground wires. It is tested by S3 converter board, as shown in Figure 4-8-2.

Figure 4-8-1 dual cables USIT

Figure 4-8-2 dual cables USIT S3 connection

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EXV9210

4.9. Converter board V1 (for 4K-VBYONE cable sequence)

EXV9210 can test P2P signals TV motherboard as well as well as 4K-VBYONE signal
motherboard. 4K-VBYONE cable sequence generally include 8 pairs of differential signal cable,
and separated by the capacitor and the main chip , its VLCD power supply pins are generally 7
or 8. As shown in Figure 4-9-1 for 4K-VBYONE cable sequence, tested by Converter board V1,
as shown in Figure 4-9-2.

Figure 4-9-1 VBYONE signal

Figure 4-9-2 VBYONE signal V1 connection

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EXV9210

5. User Guide

5.1. Main Interface Description

Figure 5-1 Main interfaces of EXV9210

EXV9210 use 5V power and plug in ，you can see main interface as Figure 5-1 shown.In the

main interface, you can use ‘up’ and ‘down’ buttons to select the type of mainboard signals tested,
and press the ‘OK’ button to confirm the selection. After selecting the signal type, you can press
and hold the ‘OK’ button again to return to the initial interface, or power on again.

5.2. Connection Instruction

The P2P motherboard LCD module cable include either 2 60Pin or 1 60Pin FFC LCD module
cable, which cannot be directly connected to the EXV9210 signal converter. It must first pass
through the P2P signal converter board and perform cable sequence conversion before
connecting to the converter for testing. EXV9210 is equipped with 6 converter boards, here
takes a single 60Pin LCD module cable as an example, the connection sample is shown in Figure
5-2, the main board is connected to converter board through a 60Pin LCD module cable,
converted into the 51-pin cable sequence, and then connected to the EXV9210 signal converter.

Figure 5-2 P2P Signal mainboard Connection Map

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EXV9210

5.3. Testing and Operation

Since there are many types of P2P signals at present, and various types of signals contain
multiple formats, even if the right motherboard type is selected, problems such as
incompleteness and color cast may still occur. It needs to be adjusted to a normal image
through various parameter selections. It should be noted that if the main board signal type is
not selected correctly, the image will not appear, and the "No Signal" screen will be displayed.
Before testing, it is necessary to judge the main board output signal type.

5.3.1. Enter and exit the menu interface

After selecting the mainboard type, touch the “OK” button to call up the screen parameter

setting menu. If the mainboard is not powered on, you can see the screen as shown in Figure 5­3-1. It should be noted that the menu is only displayed on the 5-inch screen. If an external
monitor is connected via HDMI, the menu will not be displayed on the monitor. After calling out
the screen parameter setting menu, you can select the parameters by pressing the "Up",
"Down" and "OK" buttons. After the setting is completed, you can select "Exit Menu" to exit.
Since the display parameters of different signal motherboards are different, in order to simplify
the setting menu, simplify the operation steps, and select motherboards with different signal
types, the interface of the screen parameter setting menu is different. After the mainboard is
turned on and the image signal is connected, the screen parameters can also be set. If there is
no display or the screen is stuck after connecting to the mainboard signal, it means that the
signal type is wrong, and you can return to the main interface to select the signal type again.

Figure 5-3-1 Menu Display

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EXV9210

5.3.2. Number of signal lanes

Select the number of signal lanes, you may see, it has options: "6", "8", "12","16", "24".
Except for USIT, the number of signal lanes of various P2P signals is fixed. After the signal type
is selected, the number of signal lanes is also selected by default.

5.3.3. Color Mode

Because if the mainboard signal is connected, the complete image can be displayed on
the EXV9210, but the color of the image is wrong, as shown in Figure 5-3-3, it can be set in the
color mode. Choose motherboards with different signal types, and the color mode menu
options are different. During the test, if you encounter the problem of image color cast, you
can adjust it through the color mode. The above modes are all the modes that have been
tested so far. If other color modes appear in the future, you can upgrade and add color modes
to solve the problem.

Figure 5-3-3 Color Mode Setting

5.3.4. Color bits

There are two settings for color bits: "8" and "10". Currently, the common P2P
signals are all 8 bits, and the USIT motherboard can automatically determine the 8
and 10 bits without the need for manual adjustment. VBYONE has 8-bit and 10-bit

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EXV9210

options that require manual selection.

5.3.5. Screen Division

If the mainboard signal is connected, the image will appear multiple screens, which can be
set in “Screen Division”, select different signal motherboards, screen division menu options are
different, some motherboards do not have this options, as shown in Figure 5-3- 5, there are
multiple screens, which can be set and adjusted in screen division menu.

Figure 5-3-5 split screen setting

5.3.6. Display Mode

The display mode has two settings: "DeSc" and "EnSc". If the mainboard signal is
connected, EXV9210 cannot see the image clearly, only vertical bars can be seen, as shown in
Figure 5-3-6, you can perform two operations in the display mode. switching of display modes

Figure 5-3-6 Display Mode Setting

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EXV9210

When entering the testing of CEDS or USIT, there will be another display mode
corresponding to it. Incorrect display mode settings may result in no images. In this case, you
can first check the attached table or consult technical support.

5.3.7. Image Adjustment

As most P2P signal motherboards, the output image is a mirror image, so EXV9210 adds an
image adjustment mode, which can flip the image mirror image. As shown in Figure 5-3-7, the
display mode has two settings: "original" and "mirror". "Original" is the image output by the
mainboard. Selecting the "mirror" mode can mirror the image output from the mainboard.

Figure 5-3-7 Image Adjustment Setting

6. Precious points

➢ Some motherboards may need to adjust multiple parameters, and normal images

cannot appear after adjusting a single parameter.

➢ Please pay attention to regular replacement for consumable flat cable.

➢ The Flat cable interface socket of some motherboards is wider than the screen cable,

and the flat cable can be moved left and right when inserted. Note that the flat cable is
inserted in the middle to prevent misalignment. You can test it with a multimeter before
powering on.

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EXV9210

➢ Please use the 12V power supply that comes with the machine for the power supply of

the converter. If you want to substitute it, please use the power supply whose AC end is a
three-wire plug to reduce electrostatic interference.

➢ If the image flickers or blick, check LCD module flat cable connection and then power on

again.

➢ The widths of the gaps at the two ends of flat cable provided by EXV9210 are different.

Pay attention to the direction when connecting. The narrow gap end is connected to
converter board, and the wide gap end is connected to the motherboard. Due to some
motherboards, the interface socket will be deeper, and the commonly used flat cables will
not be long enough. Therefore, it is necessary to connect the wide-notch flat cable, as
shown in Figure 6-1.

Figure 6-1 60Pin Flat cable

Wide notch to connect
Main-boards

Narrow notch to connect
converter boards

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EXV9210

7. Appendix One

According to the current motherboard test results, types of P2P signal motherboards are
CSPI, CEDS, EPI and iSP. These LCD modules corresponding to these four types of P2P come
from different brands of LCD module manufacturers. During testing, you can help to judge P2P
signal type according to LCD module manufacturer. As shown in Figure 7-1, the corresponding
signals of the P2P signal LCD module produced by several major LCD module manufacturers are
listed. You should be noted that this method is only used as an auxiliary judgment, as a
reference, and cannot ensure 100% accuracy.

Manufacturer

Mainboard Signal type

USIT

Samsung

CSOT

CSPI

BOE

CEDS

LG

EPI

AUO

ISP

Figure 7-1 LCD module and P2P signal types

8. Appendix Two, testing table for USI-T main board

NO

主板编号

Pin

转接板

Signal

Lane

Colour

Bits

VSF

Mode

Adjust

1

BN41-02855A

96*1

CD

USIT

12

RGB

8

100Hz

F0

Mirr 2 BN41-02749A-000

96*1

CD

USIT

12

RGB

8

100Hz

F0

Mirr 3 BN41-02703A

96*2

S3

USIT

12

GBR

8

50Hz

F0

Mirr

4

BN41-02568B

96*2

S3

USIT

16

RGB

8

50Hz

F0

Mirr

96*2

S3

USIT

12

GBR

8

50Hz

F1

Mirr 5 BN41-02528A

96*2

S3

USIT

12

GBR

8

50Hz

F2

Mirr 7 BN41-02570B

96*2

S3

USIT

24

RGB/GBR

10

120Hz

F1

Mirr 8 BN41-02504A

96*2

S3

USIT

24

GBR

10

120Hz

F0

Mirr 9 BN41-02710A

96*2

S3

USIT

12

GBR

8

50Hz

F1

Mirr

10

BN41-02634B

96*2

S3

USIT

24

RGB

10

120Hz

F1

Mirr

11

ML41A050594A

96*1

CD

USIT

12

8

60Hz

F3

Mirr

12

BN41-02756B

96*1

CD

USIT

12

GBR

8

50Hz

F0

Mirr

13

BN41-02572A

96*2

S3

USIT

24

GBR

10

120Hz

F3

Mirr

14

BN41-02695A

96*2

S3

USIT

24

GBR

8

120hz

F2

Mirr

23 /

9. Appendix Three testing table for some P2P main board

P2P main-board statistics table (incomplete statistics)

Item

Main-board No.s

Main-board

Brand

LCD
module
cable P

Converter No.s

Signal type

Panel parameter settings

Signal

Channels

Color

Mode

Color bit

Screen

Division

Display

Mode

Image

Adjustment

1

40-M96526-MAB2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

2

TD.T963T.775(T)

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

3

40-T972AH-MPC2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

4

40-M848CY-MAC2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

5

40-M84806-MAA2HG

TCL

single 60P

C1

CSPI

12

RGB 8 R-L

DeSc

Orig

6

40-T972B1-MPA2HG

TCL

dual 60P

C4

iSP

12

RGB 8 L-R

DeSc

Mirr

7

40-M9652F-MAB2HG

TCL

single 60P

C1

CSPI

12

GBR 8 L-R

DeSc

Mirr

8

40-T963A4-MAB2HG

TCL

single 60P

C1

CSPI

12

RGB 8 L-R

EnSc2

Mirr

9

TT963B2

TCL

dual 60P

C6

CSPI

12

Comb

8

R-L

DeSc

Orig

10

TT963B1

TCL

dual 60P

C6

CSPI

12

RGB

8

H160

DeSc

Mirr

11

40-M848C6-MAD2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

12

TD.RT2851MT.776(T)

TCL

dual 60P

C6

CSPI

12

GBR

8

H160

DeSc

Mirr

13

TPD.T972T.PC775

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

14

201-MT963B1N-02

TCL

dual 60P

C6

CSPI

12

RGB

8

H160

DeSc

Mirr

15

40-T972A5-MAD2HG

TCL

dual 60P

C6

CSPI

12

GBR 8 L-R

DeSc

Mirr

16

40-T982L2-MAC2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

17

1.30.01.TTL972D1­00-04

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

EnSc

Orig

18

40-T972AQ-MPA2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

EnSc

Orig

19

40-T972AM-MPA2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

20

40-T972A7-MAB2HG

TCL

dual 60P

C6

CSPI

12

GBR 8 L-R

DeSc

Orig

21

40-M848CD-MAA2HG

TCL

dual 60P

C5

iSP

12

RGB 8 L-R

EnSc

Mirr

22

TPD.T972T.PC779

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

EnSc

Orig

23

40-M9652F-MAC2HG

TCL

single 60P

C1

CSPI

12

GBR 8 L-R

DeSc

Mirr

24

40-T982L4-MAC2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

25

TPD.T972T.PC778

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

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EXV9210

26

40-M848CJ-MAA2HG

TCL

dual 60P

C6

CSPI

12

Comb

8

R-L

DeSc

Orig

27

40-T9722A4-MPB2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

28

40-T972A7-MPC2HG

TCL

dual 60P

C6

CSPI

12

Comb

8

R-L

DeSc

Orig

29

40-M9652A-MAB2HG

TCL

dual 60P

C6

CSPI

12

Comb

8

R-L

DeSc

Orig

30

40-T972AH-MPE2HG

TCL

dual 60P

C6

CSPI

12

Comb

8

R-L

EnSc

Orig

31

40-M838CM­MAC2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 L-R

DeSc

Mirr

32

40-MR17T5-MAA2HG

TCL

dual 60P

C6

VB12

12

8

R-L

Orig

33

40-M653G2-MAC2HG

TCL

single 96P

CC

CSPI

12

RGB

8

120Hz

EnSc

Mirr

34

40-M653J1-MAA2HG

TCL

single 96P

CC

CSPI

12

RGB

8

120Hz

EnSc

Mirr

35

40-T963T4-MAB2HG

TCL

dual 60P

C4 改

EPI-6L-8L

6

RGB1

8

Nor1

DeSc

Mirr

36

40-R51MPD-MAC2HG

TCL

dual 60P

C6

CSPI

12

RGB 8 R-L

EnSc

Orig

37

35024151

Konka

dual 60P

C2

EPI-12L

12

RGBW

8

——

——

Mirr

38

35023559

Konka

dual 60P

C2

EPI-12L

12

RGBW

8

——

——

Mirr

39

35023120

Konka

dual 60P

C2_CR

EPI-12L

12

GBWR

8

——

——

Mirr

40

35023995

Konka

dual 60P

C3

EPI-6L-8L

6

RGB0 8

EnSc

Mirr

41

35023230

Konka

dual 60P

C2_CR

EPI-12L

12

GBWR

8

——

——

Mirr

42

35024926

Konka

dual 60P

C3

EPI-6L-8L

6

RGB0

8

——

——

Mirr

43

35024941

Konka

dual 60P

C4

CEDS

12

GBR 8

Mirr

44

35025002

Konka

dual 60P

C6

CSPI

12

RGB 8 R-L

EnSc 45

35023119

Konka

dual 60P

C2_CR

EPI-12L

12

GBWR

8

——

——

Mirr

46

35023030

Konka

dual 60P

C2

EPI-12L

12

GBWR

8

——

——

Mirr

47

35026166

Konka

dual 60P

C4

CEDS

12

BGR

8

H160

Kon0

Mirr

48

35023199

Konka

dual 60P

C2

EPI-12L

12

RGBW 8

Mirr

49

35023887

Konka

dual 60P

C2

EPI-12L

12

RGBW 8

Mirr

50

35025658

Konka

dual 60P

C4

EPI-12L

12

RGBW 8

Mirr

51

35024406

Konka

dual 60P

C3

EPI-6L-8L

6

EnSc

52

35023899

Konka

dual 60P

C3

EPI-6L-8L

6

EnSc

53

35022752

Konka

dual 60P

C2

EPI-12L

12

GBWR

8

——

——

Mirr

54

35022505

Konka

dual 60P

C2

EPI-12L

12

GBWR

8

——

——

Mirr

55

35023631

Konka

dual 60P

C2_CR

EPI-12L

12

RGBW 8

56

RSAG7.820.7918

Hisense

dual 60P

C5

iSP

12

RGB 8 R-L

EnSc

Mirr

57

RSAG7.820.9850

Hisense

dual 60P

C4

CEDS

12

BGR

8

——

——

Mirr

58

RSAG7.820.8768

Hisense

dual 60P

C5

iSP

12

RGB 8 L-R

EnSc

Mirr

25 / 27

EXV9210

59

RSAG7.820.8002

Hisense

dual 60P

C5

iSP

12

RGB 8 R-L

EnSc

Mirr

60

RSAG7.820.10510

Hisense

dual 60P

C4

CEDS

12

BGR

8

——

——

Mirr

61

RSAG7.820.9428

Hisense

dual 60P

C5

iSP

12

RGB 8 L-R

EnSc

Mirr

62

RSAG7.820.8802

Hisense

dual 60P

C4

EPI

12

RGBW

8

——

——

Mirr

63

RSAG7.820.10637

Hisense

single 68P

C7-海信/C4+

CEDS

12

BGR

8

——

——

Mirr

64

RSAG7.820.10688

Hisense

single 68P

C7-海信/C5+

iSP

12

RGB 8 L-R

EnSc

Mirr

65

RSAG7.820.12206

Hisense

single 68P

C7-海信/C6+

CSPI

12

RGB 8 L-R

EnSc

Mirr

66

RSAG.820.10264

Hisense

dual 60P

C4

CEDS

8

GBR

8

H320

DeSc

Mirr

67

RSAG7.820.9132

Hisense

dual 60P

C5

i SP

12

RGB 8 L-R

EnSc

Mirr

68

RSAG7.820.9180

Hisense

dual 60P

C5

iSP

12

RGB 8 L-R

EnSc

Mirr

69

RSAG7.820.10360

Hisense

dual 60P

C5

iSP

12

GBR 8 L-R

EnSc

Mirr

70

RSAG7.820.9603

Hisense

dual 60P

C6

CSPI

12

Comb

8

R-L

EnSc

Mirr

71

RSAG7.820.9250

Hisense

dual 60P

C4

CEDS

12

RGB

8

H160

Mirr

72

RSAG7.820.12085

Hisense

single 68P

C7-海信

CEDS

12

BGR

8

H320

Mi0

Mirr

73

RSAG7.820.9479

Hisense

dual 60P

C5

iSP

12

RGB 8 L-R

EnSc

Mirr

74

RSAG7.820.8803

Hisense

dual 68P

C2

CEDS

12

BGR

8

H320

Nor0

Mirr

75

RSAG7.820.9638

Hisense

dual 68P

C2

CEDS

12

BGR

8

H320

Mi0

Mirr

76

RSAG7.820.9538

Hisense

dual 68P

C2

CEDS

12

BGR

8

H320

Mi0

Mirr

77

RSAG7.820.10527

Hisense

dual 60P

C4

CEDS

12

BGR

8

H320

Mi0

Mirr

78

RSAG7.820.12440

Hisense

single 68P

C7-海信

CEDS

12

RGB

8

H320

Mi0

Mirr

79

RSAG7.820.9516

Hisense

dual 60P

C6

CSPI

12

GBR 8 L-R

EnSc2

Mirr

80

RSAG7.820.13197

Hisense

single 68P

C7-海信

CSPI

12

RGB 8 L-R

DeSc

Mirr

81

5800-A7S770-1P20

Skyworth

single 68P

C8

VB-12

自动

RGB

10

1 分屏

——

Orig

82

5800-A9S200-0P00

Skyworth

dual 60P

C2

EPI

12

GBWR 8

Mirr

83

5800-A9R520-0P00

Skyworth

dual 60P

C2-CR

EPI

12

GBWR 8

Mirr

84

5800-A8H520-1P00

Skyworth

dual 60P

C2

EPI-12L

12

RGBW

8

——

——

Mirr

85

5823-A8S380-0P00

Skyworth

dual 60P

C3

EPI-6L-8L

6

RGBW 8

Nor0

Mirr

86

5800-A8S790-0P60

Skyworth

dual 60P

C2

EPI

12

GBWR 8

Mirr

87

5800-A7S780-0P00

Skyworth

single 68

针

C8

CEDS

12

BGR

8

H320

Mi0

Mirr

88

5800-A9R490-0P10

Skyworth

dual 60P

C2-CR

EPI

12

GBWR 8

Mirr

89

5800-A8H200-0P20

Skyworth

dual 60P

C2

iSP

12

90

A7T855

Skyworth

single 68P

C8

CEDS

12

BGR

8

H320

Nor0

Mirr

91

A7T855

Skyworth

single 68P

C8

VB-12

8

10 2

26 / 27

EXV9210

92

A9K56G0

Skyworth

single 68P

C8

CEDS

12

BGR

8

H320

Mi0

Mirr

93

A9K56G0

Skyworth

single 68P

C8

VB-12

8

10 1

Orig

94

5851-A8R391-2P00

Skyworth

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

95

5800-A7S720-0P20

Skyworth

dual 68P

C2

CEDS

12

BGR

8

H320

Mi0

Mirr

96

JUC7.820.10003598

Changhong

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

97

JUC7.820.10004874

Changhong

dual 60P

C4

iSP

12

RGB 8 L-R

DeSc

Mirr

98

JUC7.820.10000030

Changhong

single 60P

C1

CSPI

12

GBR 8 L-R

DeSc

Mirr

99

JUC7.820.00243711

Changhong

dual 60P

C5

iSP

12

RGB 8 L-R

EnSc

Mirr

100

JUC7.820.10002717

Changhong

dual 60P

C6

CSPI

12

GBR 8 R-L

EnSc

Orig

101

JUC7.820.00238776

Changhong

dual 60P

C6

CSPI

12

RGB 8 R-L

DeSc

Orig

102

JUC7.820.10002718

Changhong

single 60P

C1

12

Mirr

103

JUC7.820.00235160

Changhong

dual 60P

C5

iSP

12

GBR 8 L-R

EnSc

Mirr

104

JUC7.820.00236783

Changhong

dual 60P

C3

EPI-6L-8L

6

RGBW

8

——

EnSc

Mirr

105

TD.T963.793

Mi

single 60P

C1

CSPI

12

Comb

8

L-R

DeSc

Mirr

106

DKTV-B014-T963

Mi

single 60P

C1

CSPI

12

GBR 8 R-L

EnSc

Orig

107

TD.MT9632.793

Mi

single 60P

C1

CPSI/CEDS/VBY1

108

DKTV-B015-9638

Mi

single 60P

C1

CPSI/CEDS/VBY1

109

TD.MT9638.791

Mi

single 60P

C1

CPSI/VBY1

110

TD.MT9632.793-RZ4J

Mi

single 60P

C1

CEDS

12

BGR

8

H320

KON0

Mirr

111

TD.MT9638.792

Mi

single 60P

C1

CPSI/VBY1

Note: 1. The P2P main-board, at the output end of the screen line, has a high-voltage GAMA signal output. If connection is wrong, the protection

circuit of the instrument will be damaged, and the internal chip will be seriously damaged. Therefore, it is highly recommended that you should

read the user guide carefully before operation, and make sure you understand the contents, and then operate in strict accordance with the

instructions

2.Some P2P main-boards are plugged into different Panel IDs or flashed with different firmware, and the motherboards can output images of

different signal types to match different panel.